Deferred LC is very usefull for both importers and exporters. 1-Importer does not hav to pay in-advance when uses deferred lc 2-but exporter guarantees that he will get the payment in a certain time after shipment and also if he wants he can discount in on the same day or on any days when the LC is booked. 3- deferred LC helps to the buyer who does not have cash but has credit in his bank 4- deferred LC helps to the seller, so he does not have to look for a buyer who has only cash money.He can discount the LC with a very low cost anytime.
The differential equation governing the behavior of an LC circuit is: d2q/dt2 (1/LC)q 0.
Seaway - 1965 Shipment from Marseilles 1-1 was released on: USA: 15 September 1965
Get Smart - 1965 Shipment to Beirut 1-29 is rated/received certificates of: Argentina:Atp
Swamp Thing - 1990 The Shipment 1-13 was released on: USA: 23 November 1990
Swamp Thing - 1990 The Shipment 1-13 is rated/received certificates of: USA:TV-G
The equation used to calculate the resonant frequency of an LC circuit is: f 1 / (2(LC)), where f is the resonant frequency, L is the inductance of the circuit, and C is the capacitance of the circuit.
Phase-shift oscillator Armstrong oscillator Cross-coupled LC oscillator RC oscillator
Hawaiian Eye - 1959 Shipment from Kihei 1-11 was released on: USA: 16 December 1959
Get Smart - 1965 Shipment to Beirut 1-29 was released on: USA: 23 April 1966 Finland: 19 May 1966
#include<stdio.h> #include<conio.h> #include<string.h> struct symbol { char sn[35]; int add; }s[35]; void main() { int symerr=0,oper=0,i=1,j=1,lc,k,sa,p1,f,op,l,q,d,x=1; char opcode[50],lb[25],operand[25]; char optab[10][10]={"LDA","LDB","STA","ADD","COMP","J","JEQ","SUB","STA"}; char value[10][10]={"00","b8","0c","18","28","3C","30","lc","14","78"}; FILE *fp1,*fp2; clrscr(); fp1=fopen("input1.txt","r"); fp2=fopen("inter.txt","w"); fscanf(fp1,"%s %s",&lb,&opcode); if(strcmp(opcode,"START")==0) { fscanf(fp1,"%d",&lc); sa=lc; fprintf(fp2,"%d\t %s\t %s\t %d\n",lc,lb,opcode,lc); fscanf(fp1,"%s %s",&lb,&opcode); } while(!feof(fp1)) { d=lc; if(strcmp(".",lb)!=0) { if(strcmp("-",lb)!=0) { for(i=1;i<=j;i++) { if(strcmp(s[i].sn,lb)==0) symerr=1; break; } if(symerr==0) { strcpy(s[j].sn,lb); s[j].add=lc; j++; } } for(k=0;k<10;k++) for(l=0;l<10;l++) if(optab[k][l]==opcode) { fscanf(fp1,"%s",&operand); lc=lc+3; x=0; } if(strcmp(opcode,"RESW")==0) { fscanf(fp1,"%s",&operand); op=atoi(operand); lc=lc+(op*3); } else if(strcmp(opcode,"RESB")==0) { fscanf(fp1,"%s",&operand); op=atoi(operand); lc=lc+op; } else if(strcmp(opcode,"BYTE")==0) { fscanf(fp1,"%s",&operand); f=strlen(operand); lc=lc+(f-3); } else if(strcmp(opcode,"WORD")==0) { fscanf(fp1,"%s",&operand); lc=lc+3; } else { if(x==1) { fscanf(fp1,"%s",operand); lc=lc+3; } } } fprintf(fp2,"\n%d\t%s\t%s\t%s\n",d,lb,opcode,operand); if(symerr==1) fprintf(fp2,"\n**DUPLICATE SYMBOL**\n"); if(oper==1) fprintf(fp2,"\n**INVALID OPERATION CODE**\n"); fscanf(fp1,"%s\t%s",&lb,&opcode); symerr=0; oper=0; } p1=lc-sa; fprintf(fp2,"\nThe program length is %d",p1); printf("\n symbol table\tlabeL address\n"); for(q=1;q<j;q++) printf("\n%s\t%d",s[q].sn,s[q].add); fcloseall(); getch(); }
1.CE amplifier circuit 2.LC oscillator circuit